activity
20152026
most citedGaussian-Like Immersed Boundary Kernels with Three Continuous Derivatives and Improved Translational Invariance

71 citations · 182 across the 11 of their papers we have counts for

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Showing q-bio.TOShow all

9 papers · 1 filter

q-bio.TO2026

The Fluid Mechanics of Truncus Arteriosus

Karoline-Marie Bornemann, Perry S. Choi, Jay A. Huber +7

Truncus arteriosus (TA) is a rare, severe congenital heart disease in which the two main arteries exiting the heart fail to separate in utero resulting in one truncus and truncal v…

q-bio.TO2026

Simulations Predict Improved Valve Performance Without Direct Leaflet Intervention After Neonatal Truncus Arteriosus Repair

Karoline-Marie Bornemann, Perry S. Choi, Jay Huber +6

Truncus arteriosus (TA) is a rare and severe congenital heart disease. Quadricuspid valve morphology occurs in 25% of all TA patients and is linked to regurgitation and increased r…

q-bio.TO2024★ 3 cited

A Fluid-Structure Interaction Model of the Zebrafish Aortic Valve

Alexander D. Kaiser, Jing Wang, Aaron L. Brown +3

The zebrafish is a valuable model organism for studying cardiac development and diseases due to its many shared aspects of genetics and anatomy with humans and ease of experimental…

q-bio.TO2023★ 19 cited

Simulation-Based Design of Bicuspidization of the Aortic Valve

Alexander D. Kaiser, Moussa A. Haidar, Perry S. Choi +3

Objective: Severe congenital aortic valve pathology in the growing patient remains a challenging clinical scenario. Bicuspidization of the diseased aortic valve has proven to be a…

q-bio.TO2022

Modeling the Mitral Valve

Alexander D. Kaiser

This thesis is concerned with modeling and simulation of the mitral valve, one of the four valves in the human heart. The valve is composed of leaflets attached to a ring, the free…

q-bio.TO2021★ 19 cited

Comparison of Immersed Boundary Simulations of Heart Valve Hemodynamics against In Vitro 4D Flow MRI Data

Alexander D. Kaiser, Nicole K. Schiavone, Christopher J. Elkins +3

The immersed boundary (IB) method is a mathematical framework for fluid-structure interaction problems (FSI) that was originally developed to simulate flows around heart valves. Di…

q-bio.TO2021★ 11 cited

Controlled Comparison of Simulated Hemodynamics across Tricuspid and Bicuspid Aortic Valves

Alexander D. Kaiser, Rohan Shad, Nicole Schiavone +2

Bicuspid aortic valve is the most common congenital heart defect, affecting 1-2% of the global population. Patients with bicuspid valves frequently develop dilation and aneurysms o…

q-bio.TO2020★ 31 cited

A Design-Based Model of the Aortic Valve for Fluid-Structure Interaction

Alexander D. Kaiser, Rohan Shad, William Hiesinger +1

This paper presents a new method for modeling the mechanics of the aortic valve, and simulates its interaction with blood. As much as possible, the model construction is based on f…

q-bio.TO2019★ 28 cited

Modeling the Mitral Valve

Alexander D. Kaiser, David M. McQueen, Charles S. Peskin

This work is concerned with modeling and simulation of the mitral valve, one of the four valves in the human heart. The valve is composed of leaflets, the free edges of which are s…